Thermal environment adaptability design of space-based infrared imaging system

Thermal environment adaptability design of space-based infrared imaging system

Qinglong Hu Guangwei Shi  Fan Jiang  Huaide Zhou  Zhaohui Li  Liang Yang  Xuejun Zhang 

Changchun Institute of Optics, Fine Mechanics and Physics, Chinese Academy of Sciences, Changchun 130033, China

University of Chinese Academy of Sciences, Beijing 100049, China

Corresponding Author Email:
17 July 2017
| |
8 October 2017
| | Citation



This study discusses the influence of temperature on infrared optical system and introduced the principle and method of non-thermal design. Based on the requirements of orbital thermal environment and technical indexes of a space-based infrared imaging system, this study conducts the thermal environment adaptability design of an imaging system. The non-thermal design of the optical system is carried out by combining active and passive methods, and thermal design and thermal analysis are carried out for the thermal environment of space orbit in which the system works. Finally, the final imaging system is validated by the thermal imaging experiment. The experimental results show that the system can eliminate the influence of temperature change on image quality in the temperature range of -20 ~ + 50 ℃, and can adapt to the thermal environment of space orbit. The imaging quality can meet the application requirements under different temperature conditions.


space-based, infrared imaging, thermal environment, non-thermal design, thermal control

1. Introduction
2. Influence of Temperature on Infrared Optical System
3. Method of Non-Thermal Design
4. Thermal Environment Adaptability Design of Infrared Imaging System
5. Experiment Verification
6. Conclusions

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